Biometric frequency

ABSTRACT

A plurality of frequency orthogonal signals are transmitted into a person. At least one of the plurality of frequency orthogonal signals is received at a receiving antenna or conductor. The received signal is measured. Characteristics of the received signal are used to establish a result related to that person.

This application includes material which is subject to copyrightprotection. The copyright owner has no objection to the facsimilereproduction by anyone of the patent disclosure, as it appears in thePatent and Trademark Office files or records, but otherwise reserves allcopyright rights whatsoever.

FIELD

The disclosed apparatus and methods relate to the field of sensing, andin particular to sensing used to provide a result correlated to anindividual.

BRIEF DESCRIPTION OF THE DRAWINGS

The foregoing and other objects, features, and advantages of thedisclosure will be apparent from the following more particulardescription of embodiments as illustrated in the accompanying drawingsin which reference characters refer to the same parts throughout thevarious views. The drawings are not necessarily to scale, emphasisinstead being placed upon illustrating principles of the disclosedembodiments.

FIG. 1 shows a diagram of the sensor.

FIG. 2 is a flow chart showing the use of measurements from the system.

FIG. 3 is a depiction of people in an environment where signal isinfused.

DETAILED DESCRIPTION

The present application contemplates various embodiments of sensorsdesigned to detect and utilize infused signals. The sensorconfigurations are suited for use with frequency-orthogonal signalingtechniques (see, e.g., U.S. Pat. Nos. 9,019,224 and 9,529,476, and U.S.Pat. No. 9,811,214, all of which are hereby incorporated herein byreference). The sensor configurations discussed herein may be used withother signal techniques including scanning or time division techniques,and/or code division techniques. It is pertinent to note that thesensors described and illustrated herein are also suitable for use inconnection with signal infusion (also referred to as signal injection)techniques and apparatuses.

The presently disclosed systems and methods involve principles relatedto and for designing, manufacturing and using capacitive based sensors,and particularly capacitive based sensors that employ a multiplexingscheme based on orthogonal signaling such as but not limited tofrequency-division multiplexing (FDM), code-division multiplexing (CDM),or a hybrid modulation technique that combines both FDM and CDM methods.References to frequency herein could also refer to other orthogonalsignal bases. As such, this application incorporates by referenceApplicant’s prior U.S. Pat. No. 9,019,224, entitled “Low-Latency TouchSensitive Device” and U.S. Pat. No. 9,158,411 entitled “Fast Multi-TouchPost Processing.” These applications contemplate FDM, CDM, or FDM/CDMhybrid touch sensors which may be used in connection with the presentlydisclosed sensors. In such sensors, interactions are sensed when asignal from a row is coupled (increased) or decoupled (decreased) to acolumn conductor and the result received on that column. By sequentiallyexciting the row conductors and measuring the coupling of the excitationsignal at the column conductors, a heatmap reflecting capacitancechanges, and thus proximity, can be created.

This application also employs principles used in fast multi-touchsensors and other innovative interfaces disclosed in the following: U.S.Pat. Nos. 9,933,880; 9,019,224; 9,811,214; 9,804,721; 9,710,113; and9,158,411. Familiarity with the disclosure, concepts and nomenclaturewithin these patents is presumed. The entire disclosure of those patentsand the applications incorporated therein by reference are incorporatedherein by reference. This application also employs principles used infast multi-touch sensors and other interfaces disclosed in thefollowing: U.S. Pat. Nos. 10,191,579; 10,386,975; 10,175,772; U.S. Pat.Publication Nos. 2017/0371487; 2018/0164921; 2018/0267599; 2019/0042032;2018/0306568; U.S. Pat. Provisional Application Nos. 62/473,908;62/488,753; 62/533,405; 62/540,458; 62/575,005; 62/588,148; 62/588,267;62/621,117; 62/619,656; 62/657,120; 62/657,270 and PCT Publication No.PCT/US2017/050547. Familiarity with the disclosure, concepts andnomenclature within these patents is presumed. The entire disclosures ofthose patents and the applications incorporated therein by reference areincorporated herein by reference.

As used herein, and especially within the claims, ordinal terms such asfirst and second are not intended, in and of themselves, to implysequence, time or uniqueness, but rather, are used to distinguish oneclaimed construct from another. In some uses where the context dictates,these terms may imply that the first and second are unique. For example,where an event occurs at a first time, and another event occurs at asecond time, there is no intended implication that the first time occursbefore the second time, after the second time or simultaneously with thesecond time. However, where the further limitation that the second timeis after the first time is presented in the claim, the context wouldrequire reading the first time and the second time to be unique times.Similarly, where the context so dictates or permits, ordinal terms areintended to be broadly construed so that the two identified claimconstructs can be of the same characteristic or of differentcharacteristic. Thus, for example, a first and a second frequency,absent further limitation, could be the same frequency, e.g., the firstfrequency being 10 Mhz and the second frequency being 10 Mhz; or couldbe different frequencies, e.g., the first frequency being 10 Mhz and thesecond frequency being 11 Mhz. Context may dictate otherwise, forexample, where a first and a second frequency are further limited tobeing frequency-orthogonal to each other, in which case, they could notbe the same frequency.

Certain principles of a fast multi-touch (FMT) sensor have beendisclosed in patent applications discussed above. Orthogonal signals aretransmitted into a plurality of transmitting conductors (or antennas)and information is received by receivers attached to a plurality ofreceiving conductors (or antennas), the signal is then analyzed by asignal processor to identify touch events. The transmitting conductorsand receiving conductors may be organized in a variety ofconfigurations, including, e.g., a matrix where the crossing points formnodes, and interactions are detected at those nodes by processing of thereceived signals. In an embodiment where the orthogonal signals arefrequency orthogonal, spacing between the orthogonal frequencies, Δf, isat least the reciprocal of the measurement period T, the measurementperiod T being equal to the period during which the column conductorsare sampled. Thus, in an embodiment, a column conductor may be measuredfor one millisecond (T) using frequency spacing (Δf) of one kilohertz(i.e., Δf = 1/T).

In an embodiment, the signal processor of a mixed signal integratedcircuit (or a downstream component or software) is adapted to determineat least one value representing each frequency orthogonal signaltransmitted to a conductor or antenna. In an embodiment, the signalprocessor of the mixed signal integrated circuit (or a downstreamcomponent or software) performs a Fourier transform to received signals.In an embodiment, the mixed signal integrated circuit is adapted todigitize received signals. In an embodiment, the mixed signal integratedcircuit (or a downstream component or software) is adapted to digitizereceived signals and perform a discrete Fourier transform (DFT) on thedigitized information. In an embodiment, the mixed signal integratedcircuit (or a downstream component or software) is adapted to digitizereceived signals and perform a Fast Fourier transform (FFT) on thedigitized information -- an FFT being one type of discrete Fouriertransform.

It will be apparent to a person of skill in the art in view of thisdisclosure that a DFT, in essence, treats the sequence of digitalsamples (e.g., window) taken during a sampling period (e.g., integrationperiod) as though it repeats. As a consequence, signals that are notcenter frequencies (i.e., not integer multiples of the reciprocal of theintegration period (which reciprocal defines the minimum frequencyspacing)), may have relatively nominal, but unintended consequence ofcontributing small values into other DFT bins. Thus, it will also beapparent to a person of skill in the art in view of this disclosure thatthe term orthogonal as used herein is not “violated” by such smallcontributions. In other words, as we use the term frequency orthogonalherein, two signals are considered frequency orthogonal if substantiallyall of the contribution of one signal to the DFT bins is made todifferent DFT bins than substantially all of the contribution of theother signal.

In an embodiment, received signals are sampled at at least 1 MHz. In anembodiment, received signals are sampled at at least 2 MHz. In anembodiment, received signals are sampled at 4 Mhz. In an embodiment,received signals are sampled at 4.096 Mhz. In an embodiment, receivedsignals are sampled at more than 4 MHz.

To achieve kHz sampling, for example, 4096 samples may be taken at 4.096MHz. In such an embodiment, the integration period is 1 millisecond,which per the constraint that the frequency spacing should be greaterthan or equal to the reciprocal of the integration period provides aminimum frequency spacing of 1 KHz. (It will be apparent to one of skillin the art in view of this disclosure that taking 4096 samples at e.g.,4 MHz would yield an integration period slightly longer than amillisecond, and not achieving kHz sampling, and a minimum frequencyspacing of 976.5625 Hz.) In an embodiment, the frequency spacing isequal to the reciprocal of the integration period. In such anembodiment, the maximum frequency of a frequency-orthogonal signal rangeshould be less than 2 MHz. In such an embodiment, the practical maximumfrequency of a frequency-orthogonal signal range should be less thanabout 40% of the sampling rate, or about 1.6 MHz. In an embodiment, aDFT (which could be an FFT) is used to transform the digitized receivedsignals into bins of information, each reflecting the frequency of afrequency-orthogonal signal transmitted which may have been transmittedby the transmit antenna 130. In an embodiment 2048 bins correspond tofrequencies from 1 KHz to about 2 MHz. It will be apparent to a personof skill in the art in view of this disclosure that these examples aresimply that, exemplary. Depending on the needs of a system, and subjectto the constraints described above, the sample rate may be increased ordecreased, the integration period may be adjusted, the frequency rangemay be adjusted, etc.

In an embodiment, a DFT (which can be an FFT) output comprises a bin foreach frequency-orthogonal signal that is transmitted. In an embodiment,each DFT (which can be an FFT) bin comprises an in-phase (I) andquadrature (Q) component. In an embodiment, the sum of the squares ofthe I and Q components is used as measure corresponding to signalstrength for that bin. In an embodiment, the square root of the sum ofthe squares of the I and Q components is used as measure correspondingto signal strength for that bin. It will be apparent to a person ofskill in the art in view of this disclosure that a measure correspondingto the signal strength for a bin could be used as a measure related tobiometric activity. In other words, the measure corresponding to signalstrength in a given bin would change as a result of some activity.

FIG. 1 illustrates certain principles of a sensor 100 in accordance withan embodiment. Transmitter 200 transmits a different signal, generatedby signal generator 202, into each of the row conductors 201 of thepanel 400. The signals are designed to be “orthogonal”, i.e., separableand distinguishable from each other. A receiver 300 is attached to eachcolumn conductor 301 and has operatively connected thereto a signalprocessor 302. The row conductors 201 and the column conductors 301 areconductors/antennas that are able to transmit and/or receive signals.The receiver 300 is designed to receive any of the transmitted signals,or an arbitrary combination of them, with or without other signalsand/or noise, and to individually determine a measure, e.g., a quantityfor each of the orthogonal transmitted signals present on that columnconductor 301. The panel 400 of the sensor comprises a series of rowconductors 201 and column conductors 301 (not all shown), along whichthe orthogonal signals can propagate. In an embodiment, the rowconductors 201 and column conductors 301 are arranged such that a touchevent will cause a change in coupling between at least one of the rowconductors 201 and at least one of the column conductors 301. In anembodiment, a touch event will cause a change in the amount (e.g.,magnitude) of a signal transmitted on a row conductor 201 that isdetected in the column conductor 301. In an embodiment, a touch eventwill cause a change in the phase of a signal transmitted on a rowconductor 201 that is detected on a column conductor 301. Because thesensor 100 ultimately detects a touch event due to a change in thecoupling, it is not of specific importance, except for reasons that mayotherwise be apparent to a particular embodiment, the type of changethat is caused to the touch-related coupling by a touch. As discussedabove, the touch, or touch event does not require a physical touching,but rather an event that affects the coupled signal. In an embodimentthe touch or touch event does not require a physical touching, butrather an event that affects the coupled signal in a repeatable orpredictable manner.

In various implementations of a touch device, physical contact with therow conductors 201 and/or column conductors 301 is unlikely orimpossible as there may be a protective barrier between the rowconductors 201 and/or column conductors 301 and the finger or otherobject of touch. Moreover, generally, the row conductors 201 and columnconductors 301 themselves are not in physical contact with each other,but rather, placed in a proximity that allows signal to be coupledthere-between, and that coupling changes with touch. Generally, the rowconductor- column conductor coupling results not from actual contactbetween them, nor by actual contact from the finger or other object oftouch, but rather, by the effect of bringing the finger (or otherobject) into proximity - which proximity results in a change ofcoupling, which effect is referred to herein as touch.

The nature of the row conductors 201 and column conductors 301 isarbitrary and the particular orientation is variable. Indeed, the termsrow conductor 201 and column conductor 301 are not intended to refer toa square grid, but rather to a set of conductors upon which signal istransmitted (row conductors) and a set of conductors onto which signalmay be coupled (column conductors). The notion that signals aretransmitted on row conductors 201 and received on column conductors 301itself is arbitrary, and signals could as easily be transmitted onconductors arbitrarily designated column conductors and received onconductors arbitrarily named row conductors, or both could arbitrarilybe named something else. Further, it is not necessary that rowconductors 201 and column conductors 301 be in a grid. Other shapes arepossible as long as a touch event will affect a row conductor- columnconductor coupling. For example, the “row” could be in concentriccircles and the “columns” could be spokes radiating out from the center.And neither the “rows” nor the “columns” need to follow any geometric orspatial pattern, thus, for example, the keys on a keyboard could bearbitrarily connected to form row conductors 201 and column conductors301 (related or unrelated to their relative positions). Moreover, anantenna may be used as a row conductor 201 (e.g., having a more definedshape than a simple conductor wire such as for example a row conductormade from ITO). For example an antenna may be round or rectangular, orhave substantially any shape, or a shape that changes. An antenna usedas a row conductor 201 may be oriented in proximity to one or moreconductors, or one or more other antennas that act as column conductors301. In other words, in an embodiment, an antenna may be used for signaltransmission and oriented in proximity to one or more conductors, or oneor more other antennas that are used to receive signals. A touch willchange the coupling between the antenna used for signal transmission andthe signal used to receive signals.

It is not necessary for there to be only two types of signal propagationchannels: instead of row conductors 201 and column conductors 301, in anembodiment, channels “A”, “B” and “C” may be provided, where signalstransmitted on “A” could be received on “B” and “C”, or, in anembodiment, signals transmitted on “A” and “B” could be received on “C”.It is also possible that the signal propagation channels can alternatefunction, sometimes supporting transmitters and sometimes supportingreceivers. It is also contemplated that the signal propagation channelscan simultaneously support transmitters and receivers - provided thatthe signals transmitted are orthogonal, and thus separable, from thesignals received. Three or more types of antenna or conductors may beused rather than just “rows” and “columns.” Many alternative embodimentsare possible and will be apparent to a person of skill in the art afterconsidering this disclosure.

It is likewise not necessary for there to be only one signal transmittedon each transmitting media. In an embodiment, multiple orthogonalsignals are transmitted on each row conductor. In an embodiment,multiple orthogonal signals are transmitted on each transmittingantenna.

The sensing apparatuses discussed herein use transmitting and receivingantennas (also referred to herein as conductors). However, it should beunderstood that whether the transmitting antennas or receiving antennasare functioning as a transmitter, a receiver, or both depends on contextand the embodiment. In an embodiment, the transmitters and receivers forall or any combination of the patterns are operatively connected to asingle integrated circuit capable of transmitting and receiving therequired signals. In an embodiment, the transmitters and receivers areeach operatively connected to a different integrated circuit capable oftransmitting and receiving the required signals, respectively. In anembodiment, the transmitters and receivers for all or any combination ofthe patterns may be operatively connected to a group of integratedcircuits, each capable of transmitting and receiving the requiredsignals, and together sharing information necessary to such multiple ICconfiguration. In an embodiment, where the capacity of the integratedcircuit (i.e., the number of transmit and receive channels) and therequirements of the patterns (i.e., the number of transmit and receivechannels) permit, all of the transmitters and receivers for all of themultiple patterns used by a controller are operated by a commonintegrated circuit, or by a group of integrated circuits that havecommunications therebetween. In an embodiment, where the number oftransmit or receive channels requires the use of multiple integratedcircuits, the information from each circuit is combined in a separatesystem. In an embodiment, the separate system comprises a GPU andsoftware for signal processing.

An aspect of the concepts and principles underlying the sensors is theprocess of infusion. As the term is used herein, infusion or injectionrefers to the process of transmitting signals to the body of a subject,effectively allowing the body (or parts of the body) to become an activetransmitting source of the signal. In an embodiment, an electricalsignal is injected into the hand (or other part of the body) and thissignal can be detected by a sensor even when the hand (or fingers orother part of the body) are not in direct contact with the sensor’stouch surface. To some degree, this allows the proximity and orientationof the hand (or finger or some other body part) to be determined,relative to a surface. In an embodiment, signals are carried (e.g.,conducted) by the body, and depending on the frequencies involved, maybe carried near the surface or below the surface as well. In anembodiment, frequencies of at least the KHz range may be used infrequency injection. In an embodiment, frequencies in the MHz range maybe used in frequency injection. To use infusion in connection with FMTsensors as described above, in an embodiment, an infusion signal can beselected to be orthogonal to the drive signals, and thus it can be seenin addition to the other signals on the sense lines. In an embodiment, asignal is infused into a carrier (person, animal) and received infusedsignals are subsequently measured. In an embodiment, a plurality ofunique frequency orthogonal signals are infused into a carrier and eachof the infused plurality of unique frequency orthogonal signals receivedare measured.

The characteristics of signals infused into a person (or animal) orobject can be impacted by the person or object. A person’s bodychemistry, size shape and other characteristics can impact thecharacteristics of the signal received at receivers and measured. Twodifferent people can have a different amount of signal received. Twodifferent people can impact characteristics of a signal received atreceivers when the same orthogonal signal is infused into them. Avariety of factors may impact the amount of signal that is measured. Inan embodiment, machine learning is applied to measured signals andcorrelated with activities, movements, identities and conditions. Themeasured signals are used to determine information that can beascertained about the person or object through which the signalstraversed. In an embodiment, the measured signals are used to determineinformation that be ascertained about the state of the person. In anembodiment, the measured signals are used to determine information thatcan be ascertained about the health status of the person. In anembodiment, the measured signals are used to determine information thatcan be ascertained about the activity of the person. In an embodiment,the measured signals received at the receivers are used in order toidentify the person or object that has the signal infused into them.

In an embodiment, a signal is transmitted into a person or object via atransmitting antenna (or conductor), at least some of the signalreceived at a receiving antenna (or conductor) is measured. In anembodiment, a signal is transmitted into a person or object via atransmitting antenna (or conductor), at least some of the signal isreceived at a plurality of receiving antennas (or conductors) andmeasured. In an embodiment, a signal is transmitted into a person orobject via a plurality of transmitting antennas (or conductors), atleast some of the signals transmitted are received at a receivingantenna (or conductors) and measured. In an embodiment, a plurality oforthogonal frequency signals are transmitted into a person or object viaa transmitting antenna (or conductor), at least some of the transmittedsignals are received at a receiving antenna (or conductor) and measured.In an embodiment, a plurality of unique orthogonal frequency signals aretransmitted into a person or object via a plurality of transmittingantennas (or conductors), at least some of the signals transmitted arereceived at a plurality of receiving antennas (or conductors) andmeasured.

Turning to FIG. 2 , a flow chart of an exemplary process for usingsignals that are transmitted into a person (or object) is shown. In step203, a plurality of frequency orthogonal signals are transmitted intothe person. The physical properties of the person (or object) impactsthe plurality of frequency orthogonal signals as they pass through theperson (or object). In an embodiment, the resistivity of a person’s skin(or the resistivity of an object) impacts the plurality of frequencyorthogonal signals as they pass through the person (or object). In anembodiment, the conductivity of a person’s skin (or the conductivity ofan object) impacts the plurality of frequency orthogonal signals as theypass through the person (or object). In an embodiment, the distance thesignals traverse impacts the plurality of frequency orthogonal signalsas they pass through the person (or object). In an embodiment, bodychemistry impacts the plurality of frequency orthogonal signals as theypass through the person. In an embodiment, body temperature (or thetemperature of an object) impacts the plurality of frequency orthogonalsignals as they pass through the person (or object). In an embodiment, aperson’s heart rate impacts the plurality of frequency orthogonalsignals as they pass through the person. In an embodiment, a person’spulmonary activity impacts the plurality of frequency orthogonal signalsas they pass through the person. In an embodiment, a person’selectrodermal activity (galvanic skin response) impacts the plurality offrequency orthogonal signals as they pass through the person. In anembodiment, more than one of the aforementioned items impacts theplurality of frequency orthogonal signals as they pass through a person(or object). In an embodiment, all of the aforementioned items impactsthe plurality of frequency orthogonal signals as they pass through aperson (or object). The aforementioned items impacting the plurality offrequency orthogonal signals as they traverse through a body or objectmeans that in some instances information regarding those aforementionedsignals may be determined from the signals.

In an embodiment, transmitting antennas (or conductors) are located onan individual. In an embodiment, transmitting antennas (or conductors)are located on an object. In an embodiment, transmitting antennas (orconductors) are located on an individual and an object. In anembodiment, receiving antennas (or conductors) are located on anindividual. In an embodiment, receiving antennas (or conductors) arelocated on an object. In an embodiment, receiving antennas (orconductors) are located on an object and an individual.

In step 204, at least one of the frequency orthogonal signals isreceived at a receiver via a receiving antenna or conductor). In step205, the signal that is received is measured. In an embodiment, theamount of signal that is received is measured. In an embodiment, thephase of the signal that is received is measured. In an embodiment, boththe phase and the signal that is received is measured. The measurementsfor each of the received signals during a frame are compiled in order toform a heatmap.

In step 206, the measured signal or signals are used to establish aresult related to a person. In practice, a plurality of the signalsreceived are used to form a heatmap. For example, a plurality offrequency orthogonal signals are infused into an individual. At leastone of each of the frequency orthogonal signals transmitted are receivedby a receiving antenna. The results are used to form a first heat map.Another plurality of frequency orthogonal signals having the sameprofile (i.e. each of the same frequencies are transmitted) are infusedinto another individual. At least one of each of the frequencyorthogonal signals are received and used to form a second heat map.Comparison of the first heat map with the second heat map will result ina different heatmap. The different heatmaps can then be used toestablish an identification of each of the individuals. Similarly thiscan be used with objects as well and the identity of the object may beestablished.

In an embodiment, the result is the identity of a person. In anembodiment, the result is the identity of an object. In an embodiment,the result is the identity of an object or person. In an embodiment, theresult is a biometric related to the person. In an embodiment, theresult is information related to a person’s diet. In an embodiment, theresult is information related to a person’s physical activity. In anembodiment, the result is information related to a person’s age. In anembodiment, the result is information related to a person’s weight. Inan embodiment, the result is related to a person’s state of mind (e.g.,agitated, calm). In an embodiment, the result is information related toa person’s height. In an embodiment, the result is more than one of theaforementioned results. In an embodiment, the result is all of theaforementioned results.

As discussed above, the measured results can be used with machinelearning in order to correlate the results of measurements to thespecific results. By factoring together different results, informationcan be provided regarding a person and/or activity of the person. Theresulting information can be used in order to produce any number ofresults in a given environment.

Referring now to FIG. 3 , shown is an exemplary embodiment of animplementation of using the characteristics of measured signal. In anembodiment, sensors (not shown) having transmitting conductors and/orreceiving conductors can be located within and/or on the seat. In anembodiment, an infusion transmitting conductor can be located withinand/or near the seat. In an embodiment, receiving conductors are locatedwithin and/or near the seat. In an embodiment, the user holds or wearsan object separate from the vehicle wherein that object is able totransmit a unique orthogonal signal or signals through a person. In anembodiment, the user has a unique orthogonal signal or signals infusedvia one of the components of the vehicle. In an embodiment, signal orsignals are infused into the user via the steering wheel. In anembodiment, signal or signals are infused into a user via the dashboard.In an embodiment, signal or signals are transmitted into the user via aninterior portion of the vehicle. In an embodiment, signal or signals aretransmitted into the user via an exterior portion of the vehicle. In anembodiment, signals are transmitted into an object via a conductor (orantenna) and are received at a conductor or antenna located elsewhere.

Shading of the passengers 40 illustratively indicates the presence of aninfused signal within the passengers 40. Measurements of receivedsignals are able to be used to establish a result related to thatperson. In an embodiment, the result related to that person is anidentity of the person based on the characteristics of the measuredsignal. In this situation the vehicle would be able to distinguish theidentity of the individual who is operating certain features of thevehicle and adapt accordingly.

In an embodiment, the identity of the person provides access to theinstruments located on the vehicle’s dashboard or throughout thevehicle. For example, there may be a blank display and identification ofthe individual can be used to display a certain arrangement of controlsand heads-up displays that are unique to that individual. In anembodiment, the identity of the person is used to start the car. In anembodiment, the identity of the person based on the measured signal isused to activate the lights in the car. In an embodiment, the identityof the person based on the measured signal is used to adjust the seatsin the car to settings preferred by that person. In an embodiment, theidentity of the person based on the measured signal is used to modifythe temperature of the car based on the preferences of the individual.In an embodiment, the identity of the person based on the measuredsignal is used to modify the temperature of the car based on a physicalstate of the person. In an embodiment, the identity of the person basedon the measured signal is used to adjust an interior feature of the car.In an embodiment, the identity of the person based on the measuredsignal is used to adjust an exterior feature of the car. In anembodiment, various settings are enabled or disabled based upon thesignal transmitted by the passenger and the identity that is determinedbased upon the measured characteristics of the signal. In an embodiment,controls are enabled or disabled based upon the signal transmitted bythe passenger and the identity that is determined based upon themeasured signal.

In an embodiment, the measured signals are correlated with establishedbaseline measurements of signals. The newly established measured signalsare then used to provide a new result. In an embodiment, the resultrelated to the person is that the person is impaired by a substance. Inan embodiment, the result related to the person is that the person issubject to an ailment. In an embodiment, the result related to theperson is that the person is subject to an injury. The results then canbe provided to the individual. In an embodiment, the results can be usedto cease or never start the functioning of a vehicle. In an embodiment,the results could indicate a heart condition issue and medical attentioncould be sought. In an embodiment, the results could indicate an illnesssuch as the flu and medical attention could be recommended.

In a household setting, signal may be infused into a person using awearable or other household objects. In an embodiment, a door handle isadapted to infuse a signal into a user. In an embodiment, a portion ofthe door is adapted to infuse a signal in a user. The infused signal isreceived by receiving conductors (or antennas) sent to a receiver andultimately measured and processed. The receiving conductors (orantennas) may be located in the door or elsewhere. In an embodiment, theresults of the measured signal information can be used to establish theidentity of a person. In an embodiment, the identity of the person basedon the measured signal is used to enter a home. In an embodiment, theidentity of the person based on the characteristics of the measuredsignal is used to operate features of the interior of the home. Inembodiment, the identity of the person based on the characteristics ofthe measured signal is used to operate exterior features of the home.

Furthermore, the identity of the person based on the characteristics ofthe measured signal is used when interacting with displays and other CPUenabled objects. In an embodiment, the identity of the person based onthe characteristics of the measured signal is used to recognize when apast user is operating a display or computer. In an embodiment, theidentities of multiple people based on characteristics of the measuredsignal is used when interacting with displays and other CPU enabledobjects.

Additionally, the signature of the signal that has been infused can beused to discriminate between different types of objects and biologicalbeings. The signature of the signal that has been infused may bedifferent for a car seat versus a person. A watermelon will also end uphaving a different signature than a person. Similarly differentmaterials such as metal, wood, plastics and ceramics, will havedifferent signals with respect to each other. Each type of metal (orwood, plastic, ceramic, etc.) may have a signature. In an embodiment,the infused signal can be used to determine if there is an object or aperson in a car. In an embodiment, the infused signal can be used todetermine if there is an object or a person in a seat. In an embodiment,the infused signal can be used to determine if there is an object or aperson in a room.

An aspect of the disclosure is a sensing system for providing identityor a condition of a person. The sensing system has a transmitter adaptedto transmit a plurality of unique frequency orthogonal signals; aplurality of transmitting conductors, each of the plurality oftransmitting conductors operably connected to the transmitter, wherein aplurality of unique frequency orthogonal signals are transmitted throughthe plurality of transmitting conductors, wherein at least one of theplurality of unique frequency orthogonal signals is adapted to betransmitted into a person; a plurality of receiving conductors, each ofthe plurality of receiving conductors operatively connected to areceiver adapted to receive the at least one of the plurality of uniquefrequency orthogonal signals adapted to be transmitted into the person;and a signal processor adapted to process a measurement of the at leastone of the plurality of unique frequency orthogonal signals adapted tobe transmitted into the person, wherein the processed measurementprovides information regarding identity or a condition of the person.

Another aspect of the disclosure is a sensing system for establishingthe identity of a person or an object. The sensing system has a firstantenna; a signal generator operatively connected to the first antenna,the signal generator being configured to transmit a plurality offrequency orthogonal signals on the first antenna; a plurality of secondantennas adapted to receive signals transmitted by the first antenna; asignal processor operatively connected to the second antenna, the signalprocessor being configured to process each of the plurality of frequencyorthogonal signals received and form a heatmap; and wherein the heatmapis used to establish identity of a person or object.

Still yet another aspect of the disclosure is a method a method ofidentifying a person or object. The method comprising: transmittingsignals on a first antenna, the first antenna configured to transmit atleast one signal into the person or object; receiving signals on atleast one of a plurality of second antennas; processing signals on asignal processor operatively connected to the plurality of secondantennas, the signal processor being configured to process a signalreceived on each of the second antennas, and for each of the secondantennas to determine a measurement corresponding to the transmittedsignals; and determining an identity of the person or object usingmeasurements corresponding to the transmitted signals.

While the invention has been particularly shown and described withreference to a preferred embodiment thereof, it will be understood bythose skilled in the art that various changes in form and details may bemade therein without departing from the spirit and scope of theinvention.

1. A sensing system, comprising: a transmitter adapted to transmit aplurality of unique frequency orthogonal signals to a seat of a vehicle;wherein at least one of the plurality of unique frequency orthogonalsignals is adapted to be transmitted into a person; at least onereceiving conductors operably connected to the seat of the vehicle, theat least one receiving conductor operatively connected to a receiveradapted to receive the at least one of the plurality of unique frequencyorthogonal signals; and a signal processor adapted to process ameasurement of the at least one of the plurality of unique frequencyorthogonal signals received, wherein the processed measurement providesinformation regarding a person or object.
 2. The sensing system of claim1, wherein the measurement is modified by skin resistivity.
 3. Thesensing system of claim 1, wherein the measurement is related to anamount of signal.
 4. The sensing system of claim 1, wherein themeasurement is related to phase of a signal.
 5. The sensing system ofclaim 1, wherein the signal processor is adapted to use machine learningto establish an identity of the person.
 6. The sensing system of claim1, wherein more than one of the plurality of unique frequency orthogonalsignals are transmitted into the person.
 7. The sensing system of claim1, wherein the processed measurement provides information regarding anobject.
 8. A sensing system, comprising: a first antenna operablyconnected to a seat of a vehicle and adapted to transmit signals into aperson or object located in the seat; a signal generator operativelyconnected to the first antenna, the signal generator being configured totransmit a plurality of frequency orthogonal signals on the firstantenna; a plurality of second antennas adapted to receive signalstransmitted by the first antenna, wherein the plurality of secondantennas are operably connected to the seat of the vehicle; a signalprocessor operatively connected to the second antenna, the signalprocessor being configured to process each of the plurality of frequencyorthogonal signals received and form a heatmap; and wherein the heatmapis used to establish identity of a person or object.
 9. The sensingsystem of claim 8, wherein the first antenna is one of a plurality offirst antennas.
 10. The sensing system of claim 8, further comprising afirst component configured to be worn by a subject and adapted tomaintain the first antenna in proximity to the subject when the firstcomponent is worn.
 11. The sensing system of claim 8, wherein the firstantenna is formed part of a door.
 12. The sensing system of claim 8,wherein the measurement is modified by skin resistivity.
 13. The sensingsystem of claim 8, wherein the measurement is related to an amount ofsignal.
 14. The sensing system of claim 8, wherein the measurement isrelated to phase of a signal.
 15. The sensing system of claim 8, whereinthe signal processor is adapted to use machine learning to establishidentity of the person or object.
 16. The sensing system of claim 8,wherein more than one of the plurality of frequency orthogonal signalsis transmitted into the person or object.
 17. A method of identifying aperson or object, comprising: transmitting signals on a first antenna,wherein the first antenna is operably connected to a seat of a vehicle,the first antenna configured to transmit at least one signal into theperson or object; receiving signals on at least one of a plurality ofsecond antennas; processing signals on a signal processor operativelyconnected to the plurality of second antennas, wherein the plurality ofsecond antennas are operably connected to the seat of the vehicle, thesignal processor being configured to process a signal received on eachof the second antennas, and for each of the second antennas to determinea measurement corresponding to the transmitted signals; and determiningan identity of the person or object using measurements corresponding tothe transmitted signals.
 18. The method of claim 17, wherein determiningan identity of the person comprises comparing a heat map establishedfrom an individual with a heat map established from another individual.